Niklas Glaser is currently working as a Master’s Student on pulse optimizations of superconducting qubit gates. He started his Master thesis in October 2020, within his studies of condensed matter
Daniel Jost was member of the Gross group at WMI as a Master and Ph.D. Student as well as postdoctoral researcher between 2015 and 2020.
Master Thesis: Spin Fluctuations and Superconductivity in
After focusing on Quantum Information and Technology while studying physics at the Technical University of Munich, Niklas Bruckmoser joined the Quantum Computing group as a Master’s Student in
Daniel Schwienbacher was member of the Gross group at WMI as a master and Ph.D. stundent between 2015 and 2021.
Master Thesis: Circuit Nano-electromechanics, Transmon Qubits, Nano-strings and
Matteo Mariantoni was Member of the Gross group at WMI as a Ph.D. student between 2003 and 2009.
Ph.D. Thesis: New Trends in Superconducting Circuit Quantum Electrodynamics: Two Amplifiers, Two
Superconducting coils for contactless power transmission in the kilowatt range
to join our team working on quantum technologies for scalable superconducting qubit quantum processors.
Have you ever wondered how to control and measure a hidden superconducting qubit?
Applied Superconductivity 2: from superconducting quantum circuits to microwave quantum optics (0000001704) S 2020
Exercise to Applied Superconductivity 2: from superconducting quantum circuits to microwave quantum optics (0000004169) W 2020
Revision Course to Superconducting Quantum Circuits (0000000963) S 2018
Quantum Computing with Superconducting Qubits: architecture and algorithms (0000000961) S 2016
Exercise to Quantum Computing with Superconducting Qubits: architecture and algorithms (0000000962) W 2015
The content of the lecture includes the following topics:
Basics properties of superconductors and superconducting materials (different types of superconducting materials, superconductors in a
Within the seminar students give talks on current topics in condensed matter physics. The seminar aims to give a closer look at new developments in condensed matter physics and to show how these
see http://www.ph.tum.de/mh?mid=PH1322
Quantum Computing with Superconducting Qubits 2: Advanced Topics (0000001847) W 2025
Exercise to Quantum Computing with Superconducting Qubits 2: Advanced Topics (0000001848) S 2026
Revision Course to Superconducting Quantum Circuits (0000005084) S 2026
For approximately 10 years, superconducting quantum circuits printed on silicon chips are used to study the fundamental laws of quantum mechanics. Two prototypical examples for such circuits are
- Basics (superconducting materials, superconductors in a magnetic field, type-I and type-II superconductors, thermodynamic properties)
- Phenomenological description of superconductivity (London
Quantum Computing with Superconducting Qubits: architecture and algorithms (0000004750) S 2026
Exercise to Quantum Computing with Superconducting Qubits: architecture and algorithms (0000004752) S 2026
see http://www.ph.tum.de/mh?mid=PH1322
Quantum Computing with Superconducting Qubits: architecture and algorithms (0000001090) S 2026
Exercise to Quantum Computing with Superconducting Qubits: architecture and algorithms (0000001911) S 2026
For approximately 10 years, superconducting quantum circuits printed on silicon chips are used to study the fundamental laws of quantum mechanics. Two prototypical examples for such circuits are
Revision Course to Superconducting Quantum Circuits (0000005084) S 2026
see http://www.ph.tum.de/mh?mid=PH1322
For approximately 10 years, superconducting quantum circuits printed on silicon chips are used to study the fundamental laws of quantum mechanics. Two prototypical examples for such circuits are
Revision Course to Superconducting Quantum Circuits (0000005084) S 2026
see http://www.ph.tum.de/mh?mid=PH1322
For approximately 10 years, superconducting quantum circuits printed on silicon chips are used to study the fundamental laws of quantum mechanics. Two prototypical examples for such circuits are
see http://www.ph.tum.de/mh?mid=PH1322
For approximately 10 years, superconducting quantum circuits printed on silicon chips are used to study the fundamental laws of quantum mechanics. Two prototypical examples for such circuits are
see http://www.ph.tum.de/mh?mid=PH1322
For approximately 10 years, superconducting quantum circuits printed on silicon chips are used to study the fundamental laws of quantum mechanics. Two prototypical examples for such circuits are
see http://www.ph.tum.de/mh?mid=PH1322
